Atmospheric Correction of GF-1/WFV Image in Taihu Lake based on the 6S Model Pixel by Pixel

Chunmei Cheng; Yuchun Wei; Yuan Li; Qianguang Tu

doi:10.11873/j.issn.1004-0323.2020.1.0141

Remote Sensing Technology and Application 鈥衡�� 2020, Vol. 35 鈥衡�� Issue (1): 141-152.DOI: 10.11873/j.issn.1004-0323.2020.1.0141

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Atmospheric Correction of GF-1/WFV Image in Taihu Lake based on the 6S Model Pixel by Pixel

Chunmei Cheng¹(),Yuchun Wei²(),Yuan Li³,Qianguang Tu¹

^1. College of Geomatics and Municipal Engineering, Zhejiang University of Water Resources and Electric Power, Hangzhou 310018, China
^2. Key Laboratory of Virtual Geographic Environment (Nanjing Normal University), Ministry of Education, Nanjing 210023, China
^3. School of Tourism and Urban-rural Planning, Zhejiang Gongshang University, Hangzhou 310018, China

Received:2018-10-07 Revised:2020-01-07 Online:2020-04-01 Published:2020-02-20
Contact: Yuchun Wei

澶箹姘翠綋GF-1/WFV褰卞儚鐨�6S閫愬儚鍏冨ぇ姘旀牎姝�

绋嬫槬姊�¹(),闊︾帀鏄�²(),鏉庢笂³,娑備咕鍏�¹

^1. 娴欐睙姘村埄姘寸數瀛﹂櫌娴嬬粯涓庡競鏀垮伐绋嬪闄紝娴欐睙鏉窞 310018
^2. 鍗椾含甯堣寖澶у铏氭嫙鍦扮悊鐜鏁欒偛閮ㄩ噸鐐瑰疄楠屽锛屾睙鑻� 鍗椾含 210023
^3. 娴欐睙宸ュ晢澶у 鏃呮父涓庡煄涔¤鍒掑闄紝娴欐睙鏉窞 310018

閫氳浣滆��: 闊︾帀鏄�
浣滆�呯畝浠�:绋嬫槬姊咃紙1987-锛夛紝濂筹紝婀栧寳姝︽眽浜猴紝鍗氬＋锛岃甯堬紝涓昏浠庝簨姘寸幆澧冮仴鎰熺爺绌躲�侲?mail:ccm8711@163.com銆�
鍩洪噾璧勫姪:
鍥藉鑷劧绉戝鍩洪噾椤圭洰鈥滈潰鍚戜簩绫绘按浣撳彾缁跨礌a娴撳害閬ユ劅鍙嶆紨鐨勫厜璋辩函鍖栫爺绌垛��(41471283);娴欐睙鐪佽嚜鐒剁瀛﹂潚骞村熀閲戦」鐩�滃熀浜庡婧愬崼鏄熼仴鎰熺殑涓浗杩戞捣娴锋磱閿嬮潰鏃ュ彉鍖栫爺绌垛��(LQ18D060002);娴欐睙鐪佹按鍒╁巺绉戞妧椤圭洰鈥滃熀浜庨仴鎰熻捀鏁ｅ彂鐨勭亴婧夋按鏈夋晥鍒╃敤绯绘暟娴嬬畻鐮旂┒鈥�(RC1814)

Abstract

Abstract:

The spectral information of water is weak, and the commonly used radiation transfer model has poor accuracy in atmospheric correction of water body. Based on the Gaofen-1 WFV image (GF-1/WFV) and the synchronous in situ spectra covering Taihu Lake on 29^th, April, 2016, the sensitivity analysis of the input parameters in 6S model was first performed, and then the image was corrected using 6S model using the observation geometry calculated pixel-by-pixel, the partitioned aerosol type and the Aerosol Optical Depth (AOD) determined by the partitioned dark pixel and Spline interpolation. The experimental results show that the aerosol type has the greatest influence on the 6S atmospheric correction results. Compared with the FLAASH method, the 6S method using the observation geometry and aerosol parameters calculated pixel-by-pixel significantly improved the atmospheric correction accuracy, with the ARE (Average Relative Error) of the four bands reduced by 1.84%锛�7.78%锛�4.79%锛�17%. The 6S atmospheric correction method pixel by pixel with the input of accurate atmospheric parameters can improve the correction accuracy of the remote sensing reflectance above water surface.

Key words: GF-1, WFV, Atmospheric correction, 6S, Taihu Lake

鎽樿锛�

姘翠綋鍏夎氨淇℃伅寰急锛屽父鐢ㄧ殑鍩轰簬杈愬皠浼犺緭妯″瀷鐨勫ぇ姘旀牎姝ｆ柟娉曞湪姘翠綋涓牎姝ｇ簿搴﹁緝宸�傚熀浜庤鐩栧お婀栨按浣撶殑2016骞�4鏈�29鏃ョ殑楂樺垎涓�鍙峰骞呯浉鏈哄奖鍍忥紙GF-1/WFV锛夊拰鍚屾鐨勫疄娴嬪厜璋辨暟鎹紝瀵�6S杈愬皠浼犺緭妯″瀷鐨勮緭鍏ュ弬鏁拌繘琛屾晱鎰熸�у垎鏋愶紝閫愬儚鍏冭绠楄娴嬪嚑浣曪紝浣跨敤鍒嗗尯姘旀憾鑳剁被鍨嬨�佸垎鍖烘殫鍍忓厓鍜孲pline鎻掑�肩‘瀹氱殑姘旀憾鑳跺厜瀛﹀帤搴︼紙Aerosol Optical Depth锛孉OD锛夎繘琛�6S閫愬儚鍏冨ぇ姘旀牎姝ｃ�傚疄楠岀粨鏋滆〃鏄�:姘旀憾鑳舵ā寮忓6S澶ф皵鏍℃缁撴灉鐨勫奖鍝嶆渶澶э紝涓嶧LAASH鏂规硶鐩告瘮锛岄�愬儚鍏冭绠楄娴嬪嚑浣曞拰姘旀憾鑳跺弬鏁扮殑鏍℃鏂规硶瀵瑰ぇ姘旀牎姝ｇ簿搴︽湁鏀硅繘浣滅敤,4涓尝娈电殑骞冲潎鐩稿璇樊鍒嗗埆闄嶄綆浜�1.84%銆�7.78%銆�4.79%鍜�17%銆傜粨鍚堢簿纭ぇ姘斿弬鏁拌緭鍏ョ殑6S閫愬儚鍏冨ぇ姘旀牎姝ｆ柟娉曞彲浠ユ敼杩涙按浣撹〃闈㈤仴鎰熷弽灏勭巼鐨勫ぇ姘旀牎姝ｇ簿搴︺��

鍏抽敭璇�: 楂樺垎涓�鍙�, WFV, 澶ф皵鏍℃, 6S, 澶箹

CLC Number:

TP79

Chunmei Cheng,Yuchun Wei,Yuan Li,Qianguang Tu. Atmospheric Correction of GF-1/WFV Image in Taihu Lake based on the 6S Model Pixel by Pixel[J]. Remote Sensing Technology and Application, 2020, 35(1): 141-152.

绋嬫槬姊�,闊︾帀鏄�,鏉庢笂,娑備咕鍏�. 澶箹姘翠綋GF-1/WFV褰卞儚鐨�6S閫愬儚鍏冨ぇ姘旀牎姝J]. 閬ユ劅鎶�鏈笌搴旂敤, 2020, 35(1): 141-152.

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Atmospheric Correction of GF-1/WFV Image in Taihu Lake based on the 6S Model Pixel by Pixel

澶箹姘翠綋GF-1/WFV褰卞儚鐨�6S閫愬儚鍏冨ぇ姘旀牎姝�

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